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Al-Dhifi: J.
El-Khabeery, et al.: Int.
El-Axir, M.M.
El-Khabeery: J.
Xiao, et al.: Trans.

El-Toni, S.Yin, and T.
Sato IMRAM, Tohoku University, Sendai 980-8577, Japan el-toni@mail.tagen.tohoku.ac.jp, shuyin@tagen.tohoku.ac.jp, tsusato@tagen.tohoku.ac.jp.
CeO2 Ce1−X 4+ CeX 3+ O2−X/2VoX/2+X/4 O2 (Vo: oxygen defect, 0al. [9] suggested that the evolution of oxygen from ceria would be depressed by doping with metal ion possessing larger ionic size to stabilize fluorite structure and/or lower valence metal ion to shift the equilibrium of Eq. (1) to the left hand side by forming oxygen defect.
El-Toni, S.
El-Toni, S.

[3] WirthsS, et al., Lasing in direct-bandgap GeSn alloy grown on Si.
[12] Niu, Hu,et al.Application of Machine Learning in Material Informatics: A survey [J].
[15] Zhang Jialin et al.
[19] Zhang Yuefei et al.
Applied Soft Computing Journal, 2021, 110 [21] Zhang Wanhu et al.

Al clusters of particles appears on Al coated steel during deposition.
The content (at %) of main alloys in Al-rich layer were following: Al 89.74, Cr 3.58, Fe 4.59, Mn 1.36.
[4] Brady M P, Yamamoto Y, Lu Z P, et al.
El-Mahallawy.
[19] Lin Jing, Liu Zhuang, Sun Zhi-hui, et al.

Buch [9], Grobner and Schmid-Fetzer et al. [10] have used the Calphad approach for the development of creep-resistant Mg-Sc-Mn and MgMn(Sc,Gd,Y,Zr) alloys.
Ohno et al. [11] has calculated the Mg-rich corner of the Mg-Al-Zn phase diagram using PANDAT software; the results were compared with the literature and their own experimental data.
The ultimate tensile strength (UTS) and elongation (EL) of ZK60 and the newly developed magnesium alloys are listed in Table 2 and the microstructures are shown in Fig. 6.
Alloy UTS [MPa] El [%] ZK60 292.489 11.60 ZGK616 312.418 12.56 ZGK620 325.934 14.96 Conclusions (1) The Mg-rich corner of the phase diagram of the Mg-Zn-Gd system has been calculated
Schmid-Fetzer, Phase equilibria and solidification of Mg-rich Mg-Al-Zn alloys, Mat.

And modified EL-centrol seismic wave was shown in fig 3.
Hailin Ye, Runqiu Huang, Yingren Zheng, et al.
Zhixin Yan, Hancheng Cai, Minqun Wang, et al.
Ti Zhao, Jinzhong Sun, Bin Zhang, et al.
Bhasin, et al.

In a recent work, El Koussiefi et al
El Kousseifi et al. [67] have extended the model of Klinger et al. [61] to take into account this volume change.
Table 2: Interfacial energies used in the model of Pasichnyy and Gusak [63] and the model of El Kousseifi et al. [67].
El Kousseifi, K.
El Kousseifi, K.

Al-Dawody, A.
El-Araby, K.
El-Ibiari, A.
El Morsi, and G.
El Fatih, and A.

Ahmed and El-Kourd [1] indicated that the addition of microfines increased the shrinkage of concrete.
,et al [9] found that the compressive strength and split tensile strength of concrete mixes increases up to 40% replacement of sand by stone dust.
,et al [8] studied the crushed stone waste as fine aggregate in concrete.
Norvell et al [7] studied the influence of clays and clay-Sized particles on concrete performance.
References [1] Ahmed, E. and El-Kourd, A. (1989), "Properties of Concrete Incorporating Natural and Crushed Stone Very Fine Sand", Materials Journal, American Concrete Institute, Vol. 86, No 4, July 1989, pp. 417-424

Effect of TiC Particles Volume Fraction on the Mutual Diffusion of Al and Mg during Fabrication of Al-4.5wt%Mg/TiC via Mechanical Alloying Process O.
Peak position (Al(111)), broadening value, microstrain and crystallite size of samples.
Therefore, increasing the TiC particles led to increasing the mutual diffusion of Al and Mg.
Onis'kova et al.: Powder Metall.
El-Eskandarany: Mechanical Alloying for Fabrication of Advanced Engineering Materials (Noyes Publications/William Andrew Publising, New York 2001)